TECHNICAL WHITE PAPER · VERSION 5.0
DISE
Liquid first.
Load-bearing later.
A chemically gated, droplet-confined platform for low-viscosity subsurface placement and programmed formation of discrete load-bearing particles under HPHT conditions.
EXECUTIVE OVERVIEW
A testable architecture for controlled in-situ particle formation
DISE is designed to reconcile two competing requirements: fluid-like transport during pumping and mechanical support after placement. Reactive organic droplets are dispersed within a low-viscosity aqueous carrier. A programmed thermal-dose delay is intended to prevent sustained polymerisation during transport, after which curing remains confined within individual droplets rather than forming a continuous gel matrix.
PLACEMENT REQUIREMENT
≤10 cP
TARGET LATENCY
25–75 min
PARTICLE ENVELOPE
70–600 µm
CLOSURE GATE
Up to 6,000 psi
Evidence status: figures shown are challenge requirements or DISE qualification targets. Integrated HPHT validation remains to be completed.
WHAT VERSION 5 CONTAINS
The complete engineering case
01 · Design basis
Challenge fit, biomimetic rationale and the physical separation of placement from transformation.
02 · Selected formulation
A single candidate architecture, functional roles and IP-safe design logic.
03 · Trigger kinetics
Thermal-dose integration, induction control and the safeguards against premature bulk cure.
04 · Particle function
Droplet-confined polymerisation, morphology, mechanical targets and preserved interstitial flow.
05 · Validation programme
Falsifiable experiments, pass/fail gates and the TRL 3 to TRL 4 development route.
06 · Evidence base
Recent and foundational literature supporting the component mechanisms and identifying integration risks.
VERSION 5.0 · PDF PUBLICATION
Read the full DISE technical white paper
The PDF provides the complete technical narrative, selected candidate design, development assumptions, validation gates and literature references in an editorial publication format.
Download DISE White Paper V5
